High-energy synchrotron x-ray study of deformation-induced martensitic transformation in a neutron-irradiated Type 316 stainless steel

Keyphrases

• High Energy 100%
• Synchrotron X-ray 100%
• Neutron-irradiated 100%
• Strain-induced Martensitic Transformation 100%
• Martensitic Transformation 100%
• Type 316 Stainless Steel 100%
• Irradiated Materials 50%
• Dislocation Hardening 50%
• In Situ 25%
• Diffraction 25%
• Steel Sample 25%
• Plastic Deformation 25%
• Yield Strength 25%
• Electron Microscopy 25%
• Nuclear Reactor 25%
• Irradiation 25%
• Operating Temperature 25%
• Beneficial Effects 25%
• Room Temperature 25%
• Temperature Test 25%
• Microstructural Characteristics 25%
• Post-irradiation 25%
• 316 Stainless Steel 25%
• Transformation Mechanism 25%
• Phase-specific 25%
• Ductility Loss 25%
• Pre-strain 25%
• Strength-ductility Synergy 25%
• Post-deformation 25%
• Increased Yield 25%
• Tensile Deformation Behavior 25%
• Strain Hardening Mechanisms 25%
• Irradiation Deformation 25%
• Localized Phase Transformation 25%
• High Ductility 25%
• Deformation Level 25%
• Martensite Start Temperature 25%
• Hardening Effect 25%

Engineering

• Irradiated Material 100%
• Induced Martensitic Transformation 100%
• 316 stainless steel 100%
• Yield Point 50%
• Plastic Deformation 50%
• Nuclear Reactor 50%
• Operating Temperature 50%
• Beneficial Effect 50%
• Room Temperature 50%
• Ray Diffraction 50%
• Applied Stress 50%
• Induced Deformation 50%
• Microstructural Feature 50%
• Strain Hardening 50%
• Hardening Mechanism 50%
• Steel Sample 50%
• Hardening Effect 50%
• Martensite Start Temperature 50%
• Tensile deformation behavior 50%

Material Science

• Stainless Steel 100%
• Plastic Deformation 50%
• Yield Stress 50%
• Electron Microscopy 50%
• Martensite 50%
• Work Hardening 50%